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P23 / engineering project / accepted

Autonomous Mobile-Robot Logistics

Deep motion-planning research for autonomous mobile robots developed through engineering supervision and conference dissemination.

2025UIDE, Ecuador
INTELLIGENT COMPUTATIONAL STACKAutonomous Mobile-Robot Logistics
01DATA SOURCEinstrument / sensor / simulation
02MODEL DESIGNfeatures / representations / data pipelines
03AI / ML / DLsupervised / unsupervised / NLP
04SCIENTIFIC CODEPython / MATLAB / CUDA / GPU
05DEPLOYembedded / full stack / digital twin / XR
06VALIDATEmetrics / experiments / real-case feedback

Engineering data moves through scientific computation, learning algorithms, validation and physical or digital deployment.

01

Problem or Industrial Need

Autonomous logistics platforms require motion-planning methods that connect perception and computation with safe mobile-system behaviour.

02

Engineering or Scientific Solution

A deep motion-planning research workflow developed around autonomous mobile-robot logistics.

03

Sebastian's Technical Contribution

Provided technical supervision, project-development structure and co-authorship support for the engineering research.

04

Methods and Tools Used

  • Autonomous mobile-robot architecture
  • Deep motion-planning methods
  • Simulation and prototype-oriented development
  • Research and conference preparation
05

Prototype, Simulation and Experimental Evidence

publication

Conference research

Conference paper accepted for publication in 2025.

06

Measurable Result or Published Finding

Accepted research output

The supervised project progressed to formal engineering dissemination.

07

Diagrams and Publications

INTELLIGENT COMPUTATIONAL STACKAutonomous Mobile-Robot Logistics
01DATA SOURCEinstrument / sensor / simulation
02MODEL DESIGNfeatures / representations / data pipelines
03AI / ML / DLsupervised / unsupervised / NLP
04SCIENTIFIC CODEPython / MATLAB / CUDA / GPU
05DEPLOYembedded / full stack / digital twin / XR
06VALIDATEmetrics / experiments / real-case feedback

Engineering data moves through scientific computation, learning algorithms, validation and physical or digital deployment.

2025AcceptedJournal of Advanced Research in Applied Sciences and Engineering Technology

Deep Motion Planning for Autonomous Mobile Robot Logistics

Conference research on autonomous mobile-robot logistics and motion planning.

08

Role, Team Attribution, Institution and Project Context

Technical supervisor and contributing co-author; student implementation remains separately attributed.

Connected work

P132024-2026

Multidisciplinary Mechatronics Project Development

Problem
Multidisciplinary student engineering requires a repeatable path from requirements and models to working prototypes and defensible validation.
Solution
A hybrid project-development framework combining conventional engineering control, Agile practices, technical gates and ABET-aligned outcomes.
Evidence / result
35 multidisciplinary projects coordinated
hybrid deliveryABETprototypingtechnical supervision
View system
P142025-2026

NVIDIA Digital Twins, Simulation and Physical AI

Problem
Engineering education and prototype development needed a shared simulation-to-embedded stack for robotics, digital twins and AI-enabled systems.
Solution
Deployment of NVIDIA Omniverse, Isaac Sim and Jetson across simulation, workshops, supervised projects and collaboration as the first official NVIDIA University Ambassador in Ecuador.
Evidence / result
3 NVIDIA platforms deployed
OmniverseIsaac SimJetsondigital twins
View system
P152020-Present

Smart Realities: Spatial Computing and Connected Systems

Problem
Emerging-technology concepts often fail to connect interactive software, physical hardware, learning content and a practical delivery strategy.
Solution
An independent R&D initiative integrating sensors, embedded systems, data processing, spatial interfaces and web-based engineering applications.
Evidence / result
4 cross-functional teams led
XR/ARIoTembedded systemsweb systems
View system